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Distributed acoustic sensing for future planetary applications: initial results from the San Francisco Volcanic Field, a lunar analogue

Distributed acoustic sensing for future planetary applications: initial results from the San Francisco Volcanic Field, a lunar analogue
Distributed acoustic sensing for future planetary applications: initial results from the San Francisco Volcanic Field, a lunar analogue

Seismic imaging is one of the most powerful tools available for constraining the internal structure and composition of planetary bodies as well as enabling our understanding planetary evolution, geology, and distribution of natural resources. However, traditional seismic instrumentation can be heavy and voluminous, expensive, and/or difficult to rapidly deploy in large numbers. Distributed acoustic sensing (DAS) provides a promising new alternative given the ease of deployment, light weight and simplicity of fiber optic cables. However, the feasibility and best operational practices for using DAS for planetary exploration are not well-known. We examine the use of DAS with surface deployed fiber for planetary near-surface seismic exploration at two lunar geophysical analogue sites in San Francisco Volcanic Field. We compare DAS recordings to 3-component seismometer recordings and geophone shot recordings and determine empirical response functions for the DAS system with respect to the 3-component recordings. Shot sections of DAS and traditional seismic equipment compare well visually, with similar moveout of identifiable phases. DAS records first arrivals in good agreement with seismometers making them suitable for refraction work. Multichannel analysis of surface waves is performed on DAS records to estimate shallow shear velocities. The DAS has high spectral coherence with the horizontal components of ∼0.7 in the frequency band of the seismic shot energy. The empirical response functions are stable with amplitudes of ∼1.0–3.0 × 10 −10 m per strain. Finally, the phase response is linear but not flat or zero. Our experiment demonstrates that there is potential for surface deployed DAS in planetary landscapes.

MASW, distributed acoustic sensing, lunar seismology, refraction
2333-5084
Harmon, Nicholas
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Porter, Ryan
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Rychert, Catherine
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Schmerr, Nicholas
607be501-1918-4555-bc1d-b541c235f1ba
Smith, Madison M.
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Shen, Zhichao
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Wu, Wenbo
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Giles, Jacob
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McCall, Naoma
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Wang, Jingchuan
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Wike, Linden
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West, John
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Hoyle, Austin
b7035a04-ab7f-47c5-9287-230c9f93701a
Deykes, Naya
4f60e0a9-0535-4732-ae01-c36da1f8af9b
Harmon, Nicholas
10d11a16-b8b0-4132-9354-652e72d8e830
Porter, Ryan
05531b7a-c677-47cb-ba04-8f279a878dc9
Rychert, Catherine
70cf1e3a-58ea-455a-918a-1d570c5e53c5
Schmerr, Nicholas
607be501-1918-4555-bc1d-b541c235f1ba
Smith, Madison M.
c99ab48e-9bd5-4c61-8be2-bfb19c1c89e3
Shen, Zhichao
bb76dad2-f5c2-455f-895b-597ecb9e302e
Wu, Wenbo
7dfe6419-bb75-4d18-a92b-65f8ea16fa04
Giles, Jacob
c0c468d9-02ce-4817-b1e3-af88dec1b95d
McCall, Naoma
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Wang, Jingchuan
5735bb3d-b6b9-4bb0-bf36-e65a0d25e9f3
Wike, Linden
af1c88d2-9933-4669-82ad-52a7938f45df
West, John
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Hoyle, Austin
b7035a04-ab7f-47c5-9287-230c9f93701a
Deykes, Naya
4f60e0a9-0535-4732-ae01-c36da1f8af9b

Harmon, Nicholas, Porter, Ryan, Rychert, Catherine, Schmerr, Nicholas, Smith, Madison M., Shen, Zhichao, Wu, Wenbo, Giles, Jacob, McCall, Naoma, Wang, Jingchuan, Wike, Linden, West, John, Hoyle, Austin and Deykes, Naya (2024) Distributed acoustic sensing for future planetary applications: initial results from the San Francisco Volcanic Field, a lunar analogue. Earth and Space Science, 11 (12), [e2024EA003640]. (doi:10.1029/2024EA003640).

Record type: Article

Abstract

Seismic imaging is one of the most powerful tools available for constraining the internal structure and composition of planetary bodies as well as enabling our understanding planetary evolution, geology, and distribution of natural resources. However, traditional seismic instrumentation can be heavy and voluminous, expensive, and/or difficult to rapidly deploy in large numbers. Distributed acoustic sensing (DAS) provides a promising new alternative given the ease of deployment, light weight and simplicity of fiber optic cables. However, the feasibility and best operational practices for using DAS for planetary exploration are not well-known. We examine the use of DAS with surface deployed fiber for planetary near-surface seismic exploration at two lunar geophysical analogue sites in San Francisco Volcanic Field. We compare DAS recordings to 3-component seismometer recordings and geophone shot recordings and determine empirical response functions for the DAS system with respect to the 3-component recordings. Shot sections of DAS and traditional seismic equipment compare well visually, with similar moveout of identifiable phases. DAS records first arrivals in good agreement with seismometers making them suitable for refraction work. Multichannel analysis of surface waves is performed on DAS records to estimate shallow shear velocities. The DAS has high spectral coherence with the horizontal components of ∼0.7 in the frequency band of the seismic shot energy. The empirical response functions are stable with amplitudes of ∼1.0–3.0 × 10 −10 m per strain. Finally, the phase response is linear but not flat or zero. Our experiment demonstrates that there is potential for surface deployed DAS in planetary landscapes.

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Earth and Space Science - 2024 - Harmon - Distributed Acoustic Sensing for Future Planetary Applications Initial Results - Version of Record
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Accepted/In Press date: 16 October 2024
Published date: 27 November 2024
Keywords: MASW, distributed acoustic sensing, lunar seismology, refraction

Identifiers

Local EPrints ID: 497017
URI: http://eprints.soton.ac.uk/id/eprint/497017
ISSN: 2333-5084
PURE UUID: 31f36603-1148-4299-83c3-e95f266c7cd1
ORCID for Nicholas Harmon: ORCID iD orcid.org/0000-0002-0731-768X

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Date deposited: 09 Jan 2025 18:06
Last modified: 22 Aug 2025 02:01

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Contributors

Author: Nicholas Harmon ORCID iD
Author: Ryan Porter
Author: Nicholas Schmerr
Author: Madison M. Smith
Author: Zhichao Shen
Author: Wenbo Wu
Author: Jacob Giles
Author: Naoma McCall
Author: Jingchuan Wang
Author: Linden Wike
Author: John West
Author: Austin Hoyle
Author: Naya Deykes

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